Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural function not detectable by other means. We present a palette of multicoloured brightly fluorescent genetically encoded voltage indicators with sensitivities from 8–13% ΔF/F per 100 mV, and half-maximal response times from 4–7 ms. A fluorescent protein is fused to an archaerhodopsin-derived voltage sensor. Voltage-induced shifts in the absorption spectrum of the rhodopsin lead to voltage-dependent nonradiative quenching of the appended fluorescent protein. Through a library screen, we identify linkers and fluorescent protein combinations that report neuronal action potentials in cultured rat hippocampal neurons with a single-trial signal-to-no...
Neuronal networks are responsible for complicated responses to stimuli and behavior. Understanding ...
Rhodopsins had long been considered non-fluorescent until a peculiar voltage-sensitive fluorescence ...
There is a pressing need in neuroscience for genetically-encoded, fluorescent voltage probes that ca...
These authors contributed equally to this work. Genetically encoded fluorescent reporters of membran...
Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural ...
Developing optical probes that can monitor voltage signaling events on the sub-microsecond timescale...
Optical monitoring of neuronal voltage using fluorescent indicators is a powerful approach for the i...
Over the last decade, optical neuroimaging methods have been enriched by engineered biosensors deriv...
As a “holy grail” of neuroscience, optical imaging of membrane potential could enable high resolutio...
Comprehensively mapping and recording the electrical inputs and outputs of multiple neurons simultan...
We developed genetically encoded voltage indicators using a transmembrane voltage-sensing domain and...
Protein engineering over the past four years has made rhodopsin-based genetically encoded voltage in...
Comprehensively mapping and recording the electrical inputs and outputs of multiple neurons simultan...
Abstract A bright, red-shifted Genetically Encoded Voltage Indicator (GEVI) was developed using a mo...
Probing the neural circuit dynamics underlying behaviour would benefit greatly from improved genetic...
Neuronal networks are responsible for complicated responses to stimuli and behavior. Understanding ...
Rhodopsins had long been considered non-fluorescent until a peculiar voltage-sensitive fluorescence ...
There is a pressing need in neuroscience for genetically-encoded, fluorescent voltage probes that ca...
These authors contributed equally to this work. Genetically encoded fluorescent reporters of membran...
Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural ...
Developing optical probes that can monitor voltage signaling events on the sub-microsecond timescale...
Optical monitoring of neuronal voltage using fluorescent indicators is a powerful approach for the i...
Over the last decade, optical neuroimaging methods have been enriched by engineered biosensors deriv...
As a “holy grail” of neuroscience, optical imaging of membrane potential could enable high resolutio...
Comprehensively mapping and recording the electrical inputs and outputs of multiple neurons simultan...
We developed genetically encoded voltage indicators using a transmembrane voltage-sensing domain and...
Protein engineering over the past four years has made rhodopsin-based genetically encoded voltage in...
Comprehensively mapping and recording the electrical inputs and outputs of multiple neurons simultan...
Abstract A bright, red-shifted Genetically Encoded Voltage Indicator (GEVI) was developed using a mo...
Probing the neural circuit dynamics underlying behaviour would benefit greatly from improved genetic...
Neuronal networks are responsible for complicated responses to stimuli and behavior. Understanding ...
Rhodopsins had long been considered non-fluorescent until a peculiar voltage-sensitive fluorescence ...
There is a pressing need in neuroscience for genetically-encoded, fluorescent voltage probes that ca...